Apparatus and method for infusing and dispensing oils

ABSTRACT

The present invention pertains in general to an apparatus and method for the infusing, agitation and dispensation of oils in a controlled manner to produce a desired potency of an infusion while remaining below an identified maximum temperature threshold.

CROSS REFERENCE TO RELATED APPLICATIONS

This application is a Divisional Application of U.S. patent application Ser. No. 15/428,765, entitled “Apparatus and Method for Infusing and Dispensing Oils”, filed Feb. 9, 2017, currently pending, which claims priority to U.S. Provisional Patent Application No. 62/401,369 filed Sep. 29, 2016.

FIELD OF THE INVENTION

The present invention pertains in general to an apparatus and method for the infusing, agitation, and dispensation of oils in a controlled manner to produce a desired potency of an infusion while remaining below an identified maximum temperature threshold.

BACKGROUND OF THE INVENTION

The infusing of liquids, water-based and oil-based alike is a conventional practice in many fields including homeopathic medicine, culinary cuisine, skincare, aromatherapy, beauty, alternative wellness and production of beverages. The infusing of oil with infusing material to impart a flavor or chemical characteristic is often accomplished through the immersion of infusing material in a solvent over a period of time. Infusing that occurs over extended periods often occurs at room temperature or in a refrigerated environment. The infusing may alternatively occur at high temperatures in a pot or pan for immediate use in cooking.

Infusing is the process of extracting chemical compounds, nutrients, or flavors from plant based infusing material in a solvent such as water, oil or alcohol, by allowing the plant based infusing material to remain suspended in the solvent over time (a process often called steeping). An infusion is also the name for the resultant liquid produced from an infusion process.

The practice of infusing commonly surrounds the use of botanicals or other plant matter that are volatile and dissolve readily, or release their active ingredients easily in a solvent. Examples of botanicals include, but are not limited to, dried herbs, seeds, flowers or berries.

Steeping, a method of infusing, involves bringing a liquid to a boil (or other desired temperature) prior to incorporation with the botanicals. The incorporated mixture is then allowed to soak in the liquid for a period of time. The liquid may then be strained or the herbs otherwise removed from the liquid. Unless the infusion is to be consumed immediately, it may then be bottled and stored for future use. It will be appreciated that such infusions can be useful in either standalone use or as an ingredient in recipe or formula.

The length of time the herbs are left in a liquid depends on the purpose for which the infusion is being prepared and the potency of the infusion desired. The length of time for steeping also depends upon ingredients used in the infusion. Some infusing processes may require minutes while others require days, weeks or longer. Typically, the infusing of fats or oil-based solvents require much longer than other solvents.

SUMMARY OF THE INVENTION

The present invention surrounds a method and apparatus for infusing of liquids though heating, agitation and, dispensation of oils in a controlled manner to produce a desired potency of infusion. Embodiments of the present invention as disclosed provide an infusing method and apparatus for infusing of solvents; particularly oils. Certain embodiments provide a faster infusing process, safer infusing of solvents or more complete use of infusing material than existing solutions.

Typically, infusing of solvents with an infusing material surround the use of steeping devices made of metal, plastic or paper configured to provide an enclosed compartment with permeable walls. Such steeping devices are typically filled and placed in a volume of water for infusing. The permeable walls allow the passage of the water to permit the infusing of the solvent to a desired level. Such technologies are typically configured for the infusing of liquids, such as water, for beverages and do not allow for proper infusing for oil-based solvents. Due to higher viscosity, oil-based solvents cannot flow through permeable walls configured for the flow of water or water-based solvents. Furthermore, oil-based solvents commonly require additional heat to reduce the viscosity of the oil-based solvent. Adding heat may also be used to reduce the time needed for infusing.

Certain embodiments of the present invention provide: a heating element for solvent heating, a permeable container with permeable surface configured to allow the flow of oil-based solvents, and an agitator component to create flow of the oil-based solvent through the infusing chamber.

Certain embodiments of the present invention have a permeable container that is removably affixed to an infusion chamber. Benefits of a removably affixed permeable container include ease of use for filling of a permeable container with infusing material and removal of the permeable container for cleaning.

Some embodiments of an external surface of a permeable container are removably affixed to an internal surface of an infusion chamber using a magnetic connection. Certain embodiments of a magnetic connection use a magnet and a ferromagnetic material, while other embodiments use a plurality of magnets.

It will be appreciated that the viscosity of oil-based solvents decreases as the solvent temperature increases. It is advantageous elevate the temperature of an oil-based solvent to increase the potential flow of such an oil-based solvent through a permeable surface. It will be appreciated that oils may include, but are not limited to: butter, animal fat, or plant based oils.

Some proposed solutions for infusing oil-based solvents with a infusing material use a sealed container in combination with a heater element and an agitator. In such solutions, the agitator—of a gear-driven or shaft-driven type—is affixed to a cap and the agitator extending downward into the sealed container. Existing methods aim to provide an accelerated and controllable infusing process due to the added heat and agitation. The user adds oil-based solvent and infusing material to the container where they are heated by the heater element. The agitator churns the infusing material and the oil-based solvent, which pulverizes and circulates the infusing material within the oil-based solvent. This pulverization of the infusing material creates infusing material particulate. Where such methods fail surround problems in dispensing the oil-based solvent and filtering infusing material particulate from the infused oil-based solvent. When a user removes the lid, the agitator that extends from the base of the cap into the sealed container drips infused solvent when removed from the infusing container. To dispense the infusing material and infusing material particulate from the resultant infusion, the user pours the heated infusion through a straining device into a second container. This increases cleanup efforts and increases the risk of injury resulting from spilled infusion. Furthermore, such existing methods use agitators with blades, which cause the pulverization of the infusing material and creates infusing material particulate. Sometimes the infusing material particulate is too small to remove from the infusion with a straining device. This results in an unsightly and undesirably cloudy or dirty infusion.

Other infusing apparatuses have an agitator extending downward from a cap into an sealed container with a gear driven or shaft driven agitator mounted to the bottom of the sealed container. However, residual oil-based solvent and infusing material may adhere to the agitator of the infusing apparatus. Residual oil-based solvent and infusing material causes difficulty in cleanup of the apparatus and may contaminate future infusions.

Other devices for the production of infused beverages such as U.S. Pat. No. 4,516,484 (“the '484 Patent”) to De Ponti and U.S. Pat. No. 6,4222,133 (“the '133 Patent”) to Frank, both herein incorporated in full by reference. However, such solutions for infusing of oil-based solvents are only intended for use with water based liquids. The '484 Patent relies on building pressure based on the boiling point of water under pressure. The use of oil-based solvent in such an apparatus as disclosed in the '484 Patent may create a hazardous scenario potentially resulting in a fire and burn hazard to the user or those surrounding. The '133 Patent is not suited for use with oil-based solvents. The use of a filtering screen with small enough apertures to allow the flow-through of oil-based solvents would filter out infusing material particulate, resulting in a cloudy or dirty infusion. Furthermore, neither the '133 and the '484 Patent fail to provide full infusing potential as the infusing material is not agitated in relation to the solvent.

Embodiments of the present invention surround an infusing apparatus that include the use of an infusing chamber with an agitator component on an interior surface of the infusing chamber, a power supply, a computing device, a permeable compartment, a heating element, and a gravity based drain device. Such embodiments allow for infusing of a solvent with infusing material while limiting pulverization of the infusing material within the solvent. Furthermore, the agitator component is configured such that it does not prevent the removal of the infusing chamber from the infusing apparatus. This mitigates clean-up effort after an infusion is processed. In certain embodiments, the agitator component is a magnetically driven agitator. The magnetically driven agitator provides churning from the bottom of the infusing chamber. A magnetically driven agitator component also addresses some previously discussed problems associated with gear or shaft driven agitators. It may be desired in certain embodiments to limit the rotational speed of the agitator component to be below 200 rotations per minute (RPM), while in other embodiments it may be desired for the agitator component to be between 70 and 90 RPM. The limitation of rotational speed of the agitator component serves to prevent cavitation and other modes which may result in the aeration of the solvent. While it is preferred that the agitator component spins at a rate which does not create aeration of the solvent, it will be appreciated that the RPM of the agitator component may be adjusted infinitely within the capabilities of the agitator component. The use of a permeable compartment allows for the flow of solvents without the pulverization of the infusing materials, limiting the amount of particulate deposited into the solvent. Certain embodiments of the heating element provide constant control to maintain elevated temperatures of the solvent but not in excess of 100° C. (212° F.). By limiting the temperature of the solvent to 100° C. (212° F.), this greatly reduces the risk of injury due to contact with heated solvents, particularly oil-based solvents. Additionally, certain solvents such as butter and Flaxseed oil have material properties having a boiling point slightly above 100° C. (212° F.). In maintaining the temperature of the solvent to 100° C. (212° F.) or less, this prevents the boiling and aeration due to boiling of the solvent. Additional benefits of limiting maximum infusing process temperature to a predetermined temperature surround the use of temperature sensitive infusing material. Certain infusing materials or solvents used in an infusing process have a temperature threshold at which their chemical structure changes. Examples of such chemical structure changes include, but are not limited to, denaturation, unwanted enzymatic reactions or, unwanted hydrolytic reactions. Setting the infusing process to a particular temperature reduces unwanted changes in chemical compound of those infusing materials and solvents. A gravity-fed drain device allows for dispensing of the solvent after the infusing process without the need to pick up, tip over or otherwise handle or manipulate the infusing chamber. The gravity-fed drain device limits the risk of injury due to contact with heated solvent and reduces cleanup efforts. Other advantages of a gravity fed drain device include the mitigation of solvent aeration when the solvent is dispensed from the infusing apparatus. Aeration is undesirable because it induces cloudiness of the infused solvent. Furthermore, aeration of a solvent intended for human consumption may accelerate spoilage of the solvent due to the air entrained in the solvent. Some problems associated with air entrainment include lipid oxidation and potential microorganism growth. As such, the prevention of aeration within the solvent improves shelf-life, quality and safety of solvents intended for consumption.

It will be appreciated that certain embodiments of the invention may utilize prepackaged units configured to hold infusing material. It will be appreciated that units as used in the infusing process may allow the through-flow of a solvent while the infusing material remains captive within the unit. It will be appreciated that a prepackaged unit may include, but is not limited to, a pod, cup, or other container with permeability allowing the flow-through of a solvent. Such prepackaged units may be prefilled by a user or third party for use in the infusing of a solvent with a desired infusing material. Furthermore, such prepackaged units may be configured to fit within a permeable compartment. In certain embodiments where a prepackaged unit is configured to fit within a permeable compartment, the permeable compartment may be used to hold such a prepackaged unit in place allowing solvent to flow through a permeable membrane of the prepackaged unit. It will be appreciated that such prepackaged units may be reusable or disposable in nature. It will be further appreciated that a disposable or reusable prepackaged unit may be constructed of biodegradable material.

Certain embodiments of the present invention provide a modular functionality so a user may remove components like the agitator component, permeable compartment, infusing chamber and/or the gravity-fed drain for ease of cleaning. Certain embodiments of the invention use materials including, but not limited to Polyethylene (PE), copolyesters, Acrylonitrile Butadiene Styrene (ABS), Melamine, Nylon, Polypropylene (PP), Polystyrene (PS), Silicone, Glass, Ceramic, Stainless Steel or any other materials appreciated to be appropriate for cleaning in a dishwasher appliance.

These and other advantages will be apparent from the disclosure of the inventions contained herein. The above-described embodiments, objectives, and configurations are neither complete nor exhaustive. As will be appreciated, other embodiments of the invention are possible using, alone or in combination, one or more of the features set forth above or described in detail below. Further, this Summary is neither intended nor should be construed as being representative of the full extent and scope of the present invention. The present invention is set forth in various levels of detail in this Summary, as well as in the attached drawings in the detailed description below, and no limitation as to the scope of the present invention is intended to either the inclusion or non-inclusion of elements, components, etc. in this Summary. Additional aspects of the present invention will become more readily apparent from the detailed description, particularly when taken together with the drawings and the exemplary claims provided herein.

BRIEF DESCRIPTION OF FIGURES

FIG. 1A—Perspective view of certain embodiments of a front of an infusing apparatus

FIG. 1B—Perspective overhead view of certain embodiments of an infusing apparatus in an open configuration

FIG. 2—Perspective overhead view of certain embodiments of an infusing apparatus in an open configuration

FIG. 3A—Side view of certain embodiments of an infusing apparatus

FIG. 3B—Perspective Cross-sectional view of certain embodiments of an infusing apparatus

FIG. 4A—Side view of certain embodiments of an infusing apparatus

FIG. 4B—Front Cross-sectional view of certain embodiments of an infusing apparatus

FIG. 5—Certain embodiments of a temperature control loop

FIG. 6A—Transparent perspective view of certain embodiments of an infusion chamber

FIG. 6B—Perspective view of an infusing apparatus showing a drain device and actuating mechanism

FIG. 7A—Exploded view of certain embodiments of a gravity-fed drain device

FIG. 7B—Assembled view of certain embodiments of a gravity-fed drain device

FIG. 8—Perspective cross-sectional view of certain embodiments of an infusing apparatus

FIG. 9A—Perspective view of certain embodiments of a closure mechanism in a closed-state

FIG. 9B—Perspective view of certain embodiments of a closure mechanism in an open-state

FIG. 10—Perspective transparent view of an infusion chamber

FIG. 11—Embodiments of a method for infusing a solvent

DETAILED DESCRIPTION

Certain embodiments of an infusing apparatus 100, seen in FIG. 1A and FIG. 1B, are configured for the infusing of solvents, including oil-based solvents. Such embodiments comprise a user interface panel 610, a hinged lid 105, and a dispensing area 112 for draining solvent after an infusing process. Certain embodiments, as shown in FIG. 1B further comprise a lid-release mechanism 108 and an infusing chamber 110. It will be appreciated that in certain embodiments a user interface panel 610 comprises a printed circuit board (PCB), central processing unit (CPU), or other computing device to provide control, sensing, and programming capabilities to the infusing apparatus 100.

Certain embodiments, as seen in FIG. 2, comprise an infusing chamber 110, an agitator component 120, and a gravity-fed drain device. In such embodiments, the infusing chamber 110 is configured as a shell form to receive a volume of solvent for the infusing process. The agitator component 120, disposed on a bottom surface 140 of the infusing chamber 110 provides churning through rotational movement about an axis 135. The gravity-fed drain device of the infusing apparatus 100 is configured to allow the dispensation of a solvent held within the infusing apparatus 100 without the need to pick up, tip over or otherwise manipulate the infusing apparatus 100.

In certain embodiments of an infusing apparatus 100 comprising an agitator component 200, referencing FIG. 3A and FIG. 3B, the agitator component 200 further comprises a magnetically actuated agitator. The magnetically actuated agitator comprises a agitator component 200 having magnetic characteristics. The agitator component 200 is spun using a rotating magnetic field proximal to the agitator component 200. In certain embodiments, the agitator component 200 rests on the internal bottom surface 140 of the infusing chamber 110 while a rotating magnetic field component 210 rests on an external side of a bottom surface 140 of the infusing chamber 110. Such an agitator component 200, is configured to mix and induce a rotational flow of solvent without the pulverization of the infusing material. Furthermore, such an agitator component 200 may be coated with a chemically inert coating, such as a polymer or ceramic material. It will be appreciated to those skilled in the art that an agitator component 200 may be spun using a rotating magnet in close proximity to the agitator component as disclosed in U.S. Pat. No. 2,350,534 (“the '534 Patent”) to Rosinger, herein incorporated by reference. Alternatively, it will be further appreciated by those skilled in the art that a agitator component 200 may be spun using a stationary electromagnet with a rotating electromagnetic field as disclosed in U.S. Pat. No. 1,242,493 (“the '493 Patent”) to Stringham, herein incorporated by reference.

Certain embodiments of the present invention, as shown in FIGS. 3A and 3B further comprise a heater component 220 to provide heat to a solvent held by an infusing chamber. The heater component 220 serves to provide thermal energy to a solvent during the infusing process. It will be appreciated that such a heater component 220 may provide heat directly to a solvent held within the infusing chamber 110. It will be further appreciated that alternative forms of such a heater component 220, as seen in FIG. 4A and FIG. 4B, may provide heat to the solvent 230 indirectly by providing heating energy external to the infusing chamber 110. In certain embodiments, the heater component 220 is external to the infusing chamber 110 in close proximity to or in contact with the bottom external surface 240 of the infusing chamber 110. In such embodiments the heater component 220 applies heat energy to the infusing chamber 110 which transfers through infusing chamber 110 to the solvent 230 by way of conduction, convection, and/or radiation.

Certain embodiments, as seen in FIG. 2, comprise a temperature measuring device 150 that measures the temperature of a solvent held within the infusing chamber 110. It will be appreciated by those skilled in the art, that the measurement of temperature may be output to a temperature controller such as a thermostat. In certain embodiments, a temperature controller 300, as seen in FIG. 5, receives temperature input 350 in the form of an electrical signal from the temperature measuring device 150 shown in FIG. 2. The temperature input 350 by the temperature controller 300 to determine the error 310 between the temperature input 350 and the desired set-point 320. The temperature controller 300 then performs control calculations 330 to determine the electrical output to control the heater output 340. It will be appreciated that a device maintaining the temperature of a solvent 230 may comprise a proportional-integral-derivative (PID) controller, thermostat or other temperature control devices known to those known in the art. It will be appreciated that a PID controller in such embodiments continuously calculates an error value as the difference between a desired set point temperatures and a desired temperature. The PID controller then attempts to minimize the error value over time by adjustment of the power supplied to the heater component.

It will be appreciated that a temperature measuring device 150, as seen in FIG. 2 may comprise different forms including but not limited to an infrared thermometer, a thermistor, a thermocouple or other temperature measuring devices known to those skilled in the art.

Certain embodiments, as seen in FIG. 6A, comprise a gravity-fed drain device 130. In certain embodiments, a gravity-fed drain device 130 is connected to a bottom surface 140 of the infusing chamber 110 and interfaces with an aperture 400 through the bottom surface 140 of the infusing chamber 110. Such an aperture 400 is held closed by the gravity-fed drain device 130, preventing the passage of solvent held within an infusing chamber 110. If desired, a user may actuate the gravity-fed drain device 130 it to an open-state, to dispense a solvent held within the infusing chamber 110. It will be appreciated that any state that allows the passage of any amount of solvent through a gravity-fed drain device 130 is considered an open-state. It will be also appreciated that any state that prevents the passage of a solvent through a gravity-fed drain device 130 is considered a closed-state. It will be further appreciated that the actuation of the gravity-fed drain device 130 may be a mechanically actuated or electro-mechanically actuated depending on the nature of the actuation mechanism. It will be appreciated that in other embodiments, a gravity-fed drain device 130 is not limited to use in conjunction with an aperture 400 in the bottom surface 140 of an infusing chamber 110. It will be further appreciated that a gravity-fed drain device 130 generally provides dispensing functionality through an aperture located below the surface level of a liquid.

In certain embodiments, a gravity-fed drain device 130, seen in FIG. 6B, is mechanically actuated and comprises an actuation mechanism 410 comprising a push-button 420 connected to the gravity-fed drain device 130 through a series of mechanical linkages. The push-button 420 extends through an external surface 430 of an infusing apparatus 100. The bottom of the push-button 420 is attached to a first distal end 441 of a rigid linkage 440, which is directed toward a pivoting linkage 450. A second distal end 442 of the rigid linkage 440 is affixed to a first distal end 451 of a pivoting linkage 450. A second distal end 452 of the pivoting linkage 450, is on opposite side of a pivot point 460, which disposed between the first distal end 451 and the second distal end 452 of the pivoting linkage 450. The pivot point 460 of the pivoting linkage 450 is constrained by a rod feature 461 extending which affixes to a planar surface 410 of the infusing apparatus 100. When the first distal end 451 of the pivoting linkage 450 traverses in a first direction, the second distal end 452 of the pivoting linkage 450 traverses in a second direction. When the second distal end 452 of the pivoting linkage 450, having connection to a gravity-fed drain device 130, traverses in a second direction, the gravity-fed drain device 130 actuates to an open-state.

In certain embodiments, a gravity-fed drain device 130, seen in FIG. 7A, comprises a cylindrical form 500 having a plurality of supports 510 extending radially inward from the circumference of the cylindrical form 500 toward the central axis 520 of the cylindrical form. The supports 510 meet centrally, where they affix to a first distal end 531 of a push-rod 530 extending vertically upward from the supports 510. A second distal end 532 of the push-rod 530 is affixed to an aperture seal 540. The aperture seal 540, disposed substantially perpendicular to the push-rod 530, comprises a form configured to mate with an aperture 400, as seen in FIG. 6A, and extends through the bottom surface of an infusing chamber 110. This creates a seal between the aperture seal 540 and the aperture 400 to prevent the passage of solvent through the aperture 400. Referring now to FIGS. 7A and 7B, a collapsible cylindrical device 550 extends between the cylindrical form 500 of the gravity-fed drain device 130 and the perimeter of the aperture 400 in FIG. 6A to form a seal. When the seal between the aperture 400 and the aperture seal 540, is released, solvent is permitted to flow through the aperture 400. The solvent may then flow through the collapsible cylindrical device 550, once again referencing FIG. 7B, and through the cylindrical form 500.

It will be appreciated that, the actuation of a electromechanically actuated gravity-fed drain device 130, shown in FIG. 8, may be performed with an electric actuator 600 such as a linear actuator, stepper motor, servo motor or other electrically actuated device known to those skilled in the art. Certain embodiments, as seen in FIG. 8, comprise an electric actuator 600 with a closure mechanism 705 to a gravity-fed drain device 130 such that when the electric actuator 600 is actuated, it actuates the gravity-fed drain device 130 into an open-state. In certain embodiments, control of the electric actuator 600 is located on a user interface panel 610, seen in FIG. 1A and FIG. 1B, located on an external surface of the infusing apparatus 100.

Certain embodiments of a gravity-fed drain device 130, as seen in FIG. 8, comprise a tube 700 having a first distal end 710 configured to interface with an aperture 400 on bottom surface 140 of an infusing chamber 110 creating a seal. Such tube 700 has a second distal end 720 which is directed toward a dispensing area 112 for the dispensing of an infused oil. The tube 700, has a pathway 730 from the first distal end 710 to the second distal end 720 for the flow of infused solvent. In certain embodiments a tube 700, as shown in FIG. 8, comprises elastic or semi-elastic material properties such that the tube may be deformed by an applied force and rebound to original or substantially original form upon the removal of such an applied force. In certain embodiments, the tube 700 may be deformed by lateral deflection thereby constricting or closing the pathway.

In certain embodiments of a gravity-fed drain device, as shown in FIG. 9A and FIG. 9B, a closure mechanism 705 comprises a pivoting lever 750 and a spring 740. It will be appreciated that a spring 740 as disclosed, has a first end connected to said pivoting lever 750 and a second end affixed to a static element 741 to provide tensile force to said closure mechanism 705. In some embodiments, the spring 740 and pivoting lever 750 are configured to rest in a closed-state, shown in FIG. 9A such that the pathway 730 of the tube 700 is deformed to restrict the flow of liquid. In such an embodiment, when force is applied, the pivoting lever 750 is drawn away from the tube 700 allowing the pathway 730 to rebound and allow the flow of liquid in an open-state shown in FIG. 9B.

In certain embodiments, a gravity-fed drain device 130, as shown in FIG. 9A and FIG. 9B, that comprises a tube 700, a pivoting lever 750 and a spring 740, further comprises an electric actuator 600. An electric actuator 600 in such embodiments applies a force to the pivoting lever 750 to draw the pivoting lever 750 toward or away from the tube 700. It will be appreciated that in certain embodiments, as shown in FIG. 9A and FIG. 9B, the electric actuator provides rotational motion to a cam element 760. It will be appreciated to those skilled in the art that a cam element 760 is a rotating or sliding piece in a mechanical linkage use in transforming rotary motion into linear motion, or vice versa. In such embodiments as shown in FIG. 9A and FIG. 9B, the cam element 760 comprises a plate cam form to translate rotational motion from the electric actuator 600 to linear motion and apply force to a surface of a push plate 765. The push plate 765 is affixed to the pivoting lever 750, as such a force applied to the push plate 765 acts to apply force to the pivoting lever 765. It will be appreciated to those skilled in the art that the embodiment of a closure mechanism 705 shown in FIG. 9A and FIG. 9B rests in a closed-state (FIG. 9A) due to residual tension applied by the spring 740. Such an embodiment changes to an open-state (FIG. 9B) when a force is applied through the actuation of the electric actuator 600.

Certain embodiments of a closure mechanism 750 further comprises a contact switch 770, shown in FIG. 9A and FIG. 9B. Such a contact switch 770 has electrical connection to a user interface panel 610, seen in FIG. 1A and FIG. 1B. In such an embodiment, once again referencing FIG. 9A and FIG. 9B, when a cam element 760 applies a force to a surface of the push plate 765, the pivoting lever 750 is drawn toward the tube 700. When the pivoting lever 750 reaches a predetermined position, a surface of the push plate 765 contacts the contact switch 770, which sends an electrical signal back to the user interface panel 610, seen in FIG. 1A and FIG. 1B. Such a signal indicates a status change of a pivoting lever 750, shown in FIG. 9A and FIG. 9B, such as a closed-state (FIG. 9A) or an open-state (FIG. 9B).

Certain embodiments, as shown in FIG. 10, comprise a permeable container 620 that may be placed into an infusing chamber 110. The permeable container 620 is configured to hold infusing material such that when placed into the infusing chamber 110, solvent held within the infusing chamber is able to flow through the walls of the permeable container 620. In certain embodiments, the permeable container is disposed away from a central axis 630 of the infusing chamber 110. The flow of solvent held within the infusing chamber 110, when churned by an agitator component 120 located at a central axis 630, is higher when offset from the central axis 630. It will be appreciated that infusing material as discussed herein may refer to loose infusing material or infusing material prepackaged in forms able to be deposited within the infusing chamber 110 or alternatively within a permeable container 620.

Certain embodiments, as shown in FIG. 10, comprise a permeable container 620 having a cap 625. Such a permeable container 620 may be removably affixed to the interior of the infusing chamber 110. In such embodiments, the permeable container 620 further comprises a first magnetic fixation element 780 affixed to the exterior of the permeable container. A second magnetic fixation element 790 is affixed to the exterior of the infusing chamber 110. It will be appreciated that removable fixation is achieved when the first magnetic fixation element 780 and the second magnetic fixation element 790 are brought in proximity to each other. It will be further appreciated that magnetic removable fixation may be achieved with a magnet element and a ferromagnetic element, or a plurality of magnets.

Certain embodiments of a method of infusing a solvent, shown in FIG. 11, as discussed herein comprises the placing of infusing material. This step involves the placing of infusing material into a permeable container 620, seen in FIG. 2. The step of installing 1010, as shown in FIG. 11, involves the installation of the permeable container 620, seen in FIG. 2, within an infusing chamber 110 of an infusing apparatus 100. The step of filling 1020, shown in FIG. 11, involves adding a solvent for infusing to the infusing chamber 110 shown in FIG. 2. The infusion step 1030, shown in FIG. 11, involves the infusing apparatus 100 set to an infusing mode by user input through a user interface panel 610, seen in FIG. 1A. The infusing step 1030, shown in FIG. 11, involves churning 1040 and heating 1050 steps. The churning step 1040, churns the solvent through the spinning of an agitator component 200 as seen in FIG. 2. In certain embodiments, the spinning of the agitator component 200, is maintained between 50 and 150 RPM while in other embodiments the rotational speed of the agitator component 200 is maintained between 70 and 90 RPM. Furthermore, during the heating 1050, the infusing apparatus 100, shown in FIG. 3B, heats the solvent using a heater component 220 and maintains the solvent at a consistent set-point temperature. In some embodiments, the heating 1050, seen in FIG. 11, maintains a solvent temperature below the boiling point of the solvent. After a predetermined time, the step of terminating 1060 the infusing 1030 step is executed. The predetermined time of infusion is based upon variables such as the infusing material and solvent used in addition to the user's preference surrounding the potency of resulting infusion. The predetermined time may span only minutes, or may extend beyond several hours. Then the step of dispensing 1070 is then performed by activating a dispensing 1070 step through the user interface panel 610 seen in FIG. 1A. When activating the dispensing 1070 step, shown in FIG. 11, infusion flows through an aperture 400, shown in FIG. 8 through a gravity-fed drain device 130 and into a dispensing area 112.

Several alternative embodiments and examples have been described and illustrated herein. A person of ordinary skill in the art would appreciate the features of the individual embodiments, and the possible combinations and variations of the components. A person of ordinary skill in the art would further appreciate that any of the embodiments could be provided in any combination with the other embodiments disclosed herein. It is understood that the invention may be embodied in other specific forms without departing from the spirit or central characteristics thereof. The present examples and embodiments, therefore, are to be considered in all respects as illustrative and not restrictive, and the invention is not to be limited to the details given herein.

The terms “first,” “second,” “top,” “bottom,” etc., as used herein, are intended for illustrative purposes only and do not limit the embodiments in any way. Additionally, the term “plurality,” as used herein, indicates any number greater than one, either disjunctively or conjunctively, as necessary, up to an infinite number. Further, “Providing” an article or apparatus, as used herein, refers broadly to making the article available or accessible for future actions to be performed on the article, and does not connote that the party providing the article has manufactured, produced, or supplied the article or that the party providing the article has ownership or control of the article. Accordingly, while specific embodiments have been illustrated and described, numerous modifications come to mind without significantly departing from the spirit of the invention and the scope of protection is only limited by the scope of the accompanying Claims. 

What is claimed is:
 1. A method for creating an infusion comprising: placing infusion material into a permeable container; placing said permeable container into a chamber; filling said chamber with an oil-based solvent; infusing said solvent with said infusion material; said step of infusing further comprising churning said solvent and heating said solvent for a predetermined length of time; terminating said infusing step; and dispensing said solvent.
 2. The method of claim 1 wherein said heating said solvent comprises heating said solvent to a temperature no greater than 100° C.
 3. The method of claim 1 wherein churning said solvent further comprises limiting a rotational speed of an agitator component to between 70 revolutions per minute (“RPM”) and 90 RPM.
 4. The method of claim 1 wherein said solvent comprises a solvent selected from the group consisting of: butter, animal fat, and plant based oils.
 5. The method of claim 1 wherein said infusion material is contained within a prepackaged unit.
 6. The method of claim 1 wherein said step of dispensing said solvent comprises actuating a gravity-fed drain device, wherein said step of actuating a gravity-fed drain device changes said gravity-fed drain device from a closed-state to an open-state.
 7. The method of claim 6 wherein said step of actuating a gravity-fed drain device comprises actuating a pivoting lever, wherein actuating said pivoting lever to a closed-state comprises the pivoting lever pressing against a deformable tube, deforming said tube to restrict a pathway through said deformable tube, and wherein actuating said pivoting lever to an open-state comprises said pivoting lever moving away from said deformable tube thereby allowing the pathway to rebound to allow said solvent to flow through said pathway of said deformable tube. 